Multiple transistor-capacitor cells and a current mirror perform product-sum and activation arithmetic with lower area and power.
Current-mirror cells with transistors and capacitors cut signal-conversion overhead, reducing neural-network circuit area and power.
Phased depthwise and pointwise convolution on one CIM array cuts data movement, hardware overhead, cycle time, and power use.
A charge divider network scales and sums IMC column signals before one shared ADC, cutting ADC count, energy use, and quantization error.
Subthreshold analog circuits and energy monitoring enable edge vision computing on harvested power while maintaining stable, precise operation.
Using a FET in its linear region, this circuit performs analog multiplication or division with lower power and less complexity than DSP or Gilbert cells.
Harmonic-canceling square-wave multipliers approximate sine multiplication while widening input range and reducing temperature sensitivity.
A resistive memory array and reduction circuit compute VVDP sums in place, cutting memory access delay and power from data movement.